Completed Bones, Joints & Muscles Cells, Biochemistry & Physiology

Arthritis Research UK Tissue Engineering Centre

In plain English

AI plain-English summary

Surgeons will use keyhole surgery to repair damaged cartilage in patients with early osteoarthritis, aiming to delay or prevent the need for artificial joint replacements. Osteoarthritis affects millions of older people in the UK, degrading the cartilage that allows pain-free joint movement. Current treatments are limited to painkillers, physiotherapy, and—when the disease is advanced—joint replacement surgery, which is major surgery and rarely restores full movement. This Centre brings together clinicians, engineers, biologists, and materials scientists to develop less invasive repair techniques that could be applied earlier in the disease. If successful, the approach would reduce the need for joint replacements, cutting NHS costs and offering patients a more active life without the limitations of artificial joints. The researchers will also test whether combining this surgical repair with stem cells can enhance tissue regeneration. Small groups of patients will receive these treatments, allowing the team to refine the methods and develop additional cell-based therapies for other joint tissues. The ultimate goal is to make these therapies widely available without requiring specialist centres.

View original technical description
Our Centre sets out to link the leading academic clinicians in the UK with leading scientists in subjects such as engineering, biology and material science. We will use this expertise to deliver new treatments for osteoarthritis at an early stage in the disease. Why is this research important? Osteoarthritis is a disabling joint disease which mainly affects older people. Cartilage, which normally allows pain free movement of the joints, becomes degraded leading to pain and disability. Patients can have difficulty walking and sleeping due to the pain. In advanced osteoarthritis the damage caused by the disease can lead to a need for joints to be replaced with artificial ones. Large numbers of the population suffer from this disease resulting in a major cost for the NHS. The options for treatments are currently limited and focus mainly on relieving symptoms using pain-killers and physiotherapy. In advanced disease the only surgical procedure recommended is joint replacement. However this involves major surgery and artificial joints rarely restore a full range of movement. There is also an added risk of the joint failing over time. Lifestyle changes are also posing new challenges and often artificial joints are not satisfactory for those individuals who wish to lead an active life. We will focus on the repair and regeneration of cartilage and bone to prevent or ease symptoms in patients with early osteoarthritis. We will use less invasive key-hole surgery to repair and regenerate the patient's own joint. This could take place at an earlier stage of the disease and would delay or replace the need for joint replacement. We also want to find out if we can combine this approach with the use of stem cells (cells that have the potential to develop into many different cell types) to enhance treatments for osteoarthritis. How will the findings benefit patients? We will decrease the costs of tissue engineering approaches and increase both their effectiveness and robustness. Small groups of patients will actually receive these new treatments. By researching these patients we can use this information to translate our science from the laboratory to the clinic and develop a number of other cell based therapies for several joint tissues. Ultimately we aim to make these therapies available to all patients without the need for specialist centres

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Researchers

Andrew McCaskie (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

Osteochondral grafts
Enabling Individualised Surgical Treatment of Osteoarthritis
Development of bioactive graphene based scaffolds for tissue repair
SMART STEP - Stepwise Translational Pathway for Smart Material Cell Therapy
Centre for Musculoskeletal Ageing Research

Original classification

Centre Initiative Grant

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.